Using L'H o ^ pital's rule (Section 3.6) one can verify that lim x → + ∞ ln x x r = 0 , lim x → + ∞ x r ln x = + ∞ , lim x → 0 + x r ln x = 0 for any positive real number r . In these exercises: (a) Use these results, as necessary, to find the limits of f x as x → + ∞ and as x → 0 + . (b) Sketch a graph of f x and identify all relative extrema, inflection points, and asymptotes (as appropriate). Check your work with a graphing utility. f x = x 2 ln 2 x
Using L'H o ^ pital's rule (Section 3.6) one can verify that lim x → + ∞ ln x x r = 0 , lim x → + ∞ x r ln x = + ∞ , lim x → 0 + x r ln x = 0 for any positive real number r . In these exercises: (a) Use these results, as necessary, to find the limits of f x as x → + ∞ and as x → 0 + . (b) Sketch a graph of f x and identify all relative extrema, inflection points, and asymptotes (as appropriate). Check your work with a graphing utility. f x = x 2 ln 2 x
Using
L'H
o
^
pital's
rule (Section 3.6) one can verify that
lim
x
→
+
∞
ln
x
x
r
=
0
,
lim
x
→
+
∞
x
r
ln
x
=
+
∞
,
lim
x
→
0
+
x
r
ln
x
=
0
for any positive real number
r
. In these exercises: (a) Use these results, as necessary, to find the limits of
f
x
as
x
→
+
∞
and as
x
→
0
+
. (b) Sketch a graph of
f
x
and identify all relative extrema, inflection points, and asymptotes (as appropriate). Check your work with a graphing utility.
A driver is traveling along a straight road when a buffalo runs into the street. This driver has a reaction time of 0.75 seconds. When the driver sees the buffalo he is traveling at 44 ft/s, his car can decelerate at 2 ft/s^2 when the brakes are applied. What is the stopping distance between when the driver first saw the buffalo, to when the car stops.
Topic 2
Evaluate S
x
dx, using u-substitution. Then find the integral using
1-x2
trigonometric substitution. Discuss the results!
Topic 3
Explain what an elementary anti-derivative is. Then consider the following
ex
integrals: fed dx
x
1
Sdx
In x
Joseph Liouville proved that the first integral does not have an elementary anti-
derivative Use this fact to prove that the second integral does not have an
elementary anti-derivative. (hint: use an appropriate u-substitution!)
1. Given the vector field F(x, y, z) = -xi, verify the relation
1
V.F(0,0,0) = lim
0+ volume inside Se
ff F• Nds
SE
where SE is the surface enclosing a cube centred at the origin and having edges of length 2€. Then,
determine if the origin is sink or source.
Calculus for Business, Economics, Life Sciences, and Social Sciences (14th Edition)
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